The characterization and antioxidant ability of Res-loaded MP-CS stabilized Pickering emulsion, and its effects of fat reduction (25%, 50%, 75%, and 100%) in meat patties on pH, color, texture, cooking yield and antioxidant activity were investigated. Fat substitute using emulsion had no significant effect on pH and cooking yield. The addition of emulsion increased L* value and reduced a* value. a* value of meat patties with resveratrol added were higher than those without resveratrol group. Hardness and chewiness of meat patties with 25% and 100% fat replacement was lower than 50% and 75% fat replacement. The addition of emulsion could improve the network structure of meat patties and enhance oxidative stability. Oxidative stability of meat patties was improved by Res-loaded MP-CS stabilized Pickering emulsion. The results showed that MP-CS stabilized Pickering emulsion had great potential to be used as fat substitute for developing low-fat meat products, and the addition of resveratrol can improve the antioxidant ability of substitute fat meat products.
AbbasiEAmini SarteshniziRAhmadi GavlighiH, et al. (2019). Effect of partial replacement of fat with added water and tragacanth gum (Astragalus gossypinus and Astragalus compactus) on the physicochemical, texture, oxidative stability, and sensory property of reduced fat emulsion type sausage. Meat Science147: 135–143.
2.
AlvesLLorenzoJMGoncalvesCAA, et al. (2016). Production of healthier Bologna type sausages using pork skin and green banana flour as a fat replacers. Meat Science121: 73–78.
3.
Asuming-BediakoNJaspalMHHallettK, et al. (2014). Effects of replacing pork backfat with emulsified vegetable oil on fatty acid composition and quality of UK-style sausages. Meat Science96(1): 187–194.
4.
BarrettoACdSPachecoMTBPollonioMAR. (2015). Effect of the addition of wheat fiber and partial pork back fat on the chemical composition, texture and sensory property of low-fat Bologna sausage containing inulin and oat fiber. Food Science and Technology (Campinas)35(1): 100–107.
5.
BeriainMJGomezIPetriE, et al. (2011). The effects of olive oil emulsified alginate on the physico-chemical, sensory, microbial, and fatty acid profiles of low-salt, inulin-enriched sausages. Meat Science88(1): 189–197.
6.
Berton-CarabinCCRopersMHGenotCJCRiFS, et al. (2014). Lipid oxidation in oil-in-water emulsions: Involvement of the interfacial layer. Comprehensive Reviews in Food Science and Food Safety13(5): 945–977.
7.
Botella-MartínezCGea-QuesadaASayas-BarberáE, et al. (2022). Improving the lipid profile of beef burgers added with chia oil (Salvia hispanica L.) or hemp oil (Cannabis sativa L.) gelled emulsions as partial animal fat replacers. Lwt161: 113416.
8.
CâmaraAKFIPollonioMARJJoFQ. (2015). Reducing animal fat in Bologna sausage using pre-emulsified linseed oil: Technological and sensory properties. Journal of Food Quality38(3): 201–212.
9.
ChandraMVShamasundarBA. (2014). Texture profile analysis and functional properties of gelatin from the skin of three Species of fresh water fish. International Journal of Food Properties18(3): 572–584.
10.
ChangCWangTHuQ, et al. (2017). Pectin coating improves physicochemical properties of caseinate/zein nanoparticles as oral delivery vehicles for curcumin. Food Hydrocolloids70: 143–151.
11.
ChenLWangPKangZ-L, et al. (2015). Effect of soybean oil emulsified and unemulsified with chicken plasma protein on the physicochemical properties of frankfurters. CyTA - Journal of Food13(3): 445–455.
12.
ChenYJiaXSunF, et al. (2020). Using a stable pre-emulsified canola oil system that includes porcine plasma protein hydrolysates and oxidized tannic acid to partially replace pork fat in frankfurters. Meat Science160: 107968.
13.
ChengHKhanMAXieZ, et al. (2020). A peppermint oil emulsion stabilized by resveratrol-zein-pectin complex particles: Enhancing the chemical stability and antimicrobial activity in combination with the synergistic effect. Food Hydrocolloids103: 113416.
14.
ChoeEMinDBJCRIFSSafetyF. (2006). Mechanisms and factors for edible oil oxidation. Comprehensive Reviews in Food Science and Food Safety5(4): 169–186.
15.
ChoiJKimNChoiHY, et al. (2019). Effect of Cacao bean husk powder on the quality properties of pork sausages. Food Science of Animal Resources39(5): 742–755.
16.
ChoiYSChoiJHHanDJ, et al. (2009). Characteristics of low-fat meat emulsion systems with pork fat replaced by vegetable oils and rice bran fiber. Meat Science82(2): 266–271.
17.
ConsoliLHubingerMDDragosavacMM. (2020). Encapsulation of resveratrol using Maillard conjugates and membrane emulsification. Food Research International137: 109359.
18.
Davidov-PardoGMcClementsDJ. (2014). Resveratrol encapsulation: Designing delivery systems to overcome solubility, stability and bioavailability issues. Trends in Food Science & Technology38(2): 88–103.
19.
de CarvalhoFALMunekataPESLopes de OliveiraA, et al. (2020). Turmeric (Curcuma longa L.) extract on oxidative stability, physicochemical and sensory properties of fresh lamb sausage with fat replacement by tiger nut (Cyperus esculentus L.) oil. Food Research International136: 109487.
20.
DickinsonE. (2010). Food emulsions and foams: Stabilization by particles. Current Opinion in Colloid & Interface Science15(1-2): 40–49.
21.
DominguezRPateiroMGagaouaM, et al. (2019). A Comprehensive Review on Lipid Oxidation in Meat and Meat Products. Antioxidants (Basel)8(10): 429.
22.
FengXSunYYangY, et al. (2020). Zein nanoparticle stabilized pickering emulsion enriched with cinnamon oil and its effects on pound cakes. Lwt122: 109025.
23.
Fernández-MarMIMateosRGarcía-ParrillaMC, et al. (2012). Bioactive compounds in wine: Resveratrol, hydroxytyrosol and melatonin: A review. Food Chemistry130(4): 797–813.
24.
FilipV. (2003). Resveratrol and its antioxidant and antimicrobial effectiveness. Food Chemistry83(4): 585–593.
25.
GaoJMaoYXiangC, et al. (2021). Preparation of beta-lactoglobulin/gum Arabic complex nanoparticles for encapsulation and controlled release of EGCG in simulated gastrointestinal digestion model. Food Chemistry354: 129516.
26.
Gómez-EstacaJPintadoTJiménez-ColmeneroF, et al. (2019). Assessment of a healthy oil combination structured in ethyl cellulose and beeswax oleogels as animal fat replacers in low-fat, PUFA-enriched pork burgers. Food and Bioprocess Technology12(6): 1068–1081.
27.
GongTChenBHuCY, et al. (2022). Resveratrol inhibits lipid and protein co-oxidation in sodium caseinate-walnut oil emulsions by reinforcing oil-water interface. Food Research International158: 111541.
28.
HaakLRaesKDe SmetSJJotSoF and Agriculture (2009). Effect of plant phenolics, tocopherol and ascorbic acid on oxidative stability of pork patties. Journal of the Science of Food and Agriculture89(8): 1360–1365.
29.
HerreroAMCarmonaPPintadoT, et al. (2012). Lipid and protein structure analysis of frankfurters formulated with olive oil-in-water emulsion as animal fat replacer. Food Chemistry135(1): 133–139.
30.
HuanSZhuYXuW, et al. (2021). Pickering emulsions via interfacial nanoparticle complexation of oppositely charged nanopolysaccharides. ACS Applied Materials & Interfaces13(10): 12581–12593.
31.
HuangSTuZShaX, et al. (2021). Fabrication and performance evaluation of pectin-fish gelatin-resveratrol preservative films. Food Chemistry361: 129832.
32.
HuangXDaiYCaiJ, et al. (2017). Resveratrol encapsulation in core-shell biopolymer nanoparticles: Impact on antioxidant and anticancer activities. Food Hydrocolloids64: 157–165.
33.
HungCFChenJKLiaoMH, et al. (2006). Development and evaluation of emulsion-liposome blends for resveratrol delivery. Journal of Nanoscience and Nanotechnology6(9-10): 2950–2958.
34.
JavidiFRazaviSMAMohammad AminiA. (2019). Cornstarch nanocrystals as a potential fat replacer in reduced fat O/W emulsions: A rheological and physical study. Food Hydrocolloids90: 172–181.
35.
JayaprakashaGKJaganmohan RaoLSakariahKK. (2006). Antioxidant activities of curcumin, demethoxycurcumin and bisdemethoxycurcumin. Food Chemistry98(4): 720–724.
36.
JiaNKongBLiuQ, et al. (2012). Antioxidant activity of black currant (Ribes nigrum L.) extract and its inhibitory effect on lipid and protein oxidation of pork patties during chilled storage. Meat Science91(4): 533–539.
37.
KargarMFayazmaneshKAlaviM, et al. (2012). Investigation into the potential ability of pickering emulsions (food-grade particles) to enhance the oxidative stability of oil-in-water emulsions. Journal of Colloid and Interface Science366(1): 209–215.
38.
KuhnKRCunhaRL. (2012). Flaxseed oil – whey protein isolate emulsions: Effect of high pressure homogenization. Journal of Food Engineering111(2): 449–457.
39.
KwonHCShinDMYuneJH, et al. (2021). Evaluation of gels formulated with whey proteins and sodium dodecyl sulfate as a fat replacer in low-fat sausage. Food Chemistry337: 127682.
40.
LiXLMengRXuBC, et al. (2022). Function emulsion gels prepared with carrageenan and zein/carboxymethyl dextrin stabilized emulsion as a new fat replacer in sausages. Food Chemistry389: 133005.
41.
LiuCPeiRHeinonenMJFC. (2022). Faba bean protein: A promising plant-based emulsifier for improving physical and oxidative stabilities of oil-in-water emulsions. Food Chemistry369: 130879.
42.
LiuXGuoJWanZ-L, et al. (2018). Wheat gluten-stabilized high internal phase emulsions as mayonnaise replacers. Food Hydrocolloids77: 168–175.
43.
Lucas-GonzálezRRoldán-VerduASayas-BarberáE, et al. (2020). Assessment of emulsion gels formulated with chestnut (Castanea sativa M.) flour and chia (Salvia hispanica L) oil as partial fat replacers in pork burger formulation. Journal of the Science of Food and Agriculture100(3): 1265–1273.
44.
MatosMGutiérrezGCocaJ, et al. (2014). Preparation of water-in-oil-in-water (W1/O/W2) double emulsions containing trans-resveratrol. Colloids and Surfaces A: Physicochemical and Engineering Aspects442: 69–79.
45.
MiaochuanL, et al. (2021). Effect of high internal phase pickering lotion replacing fat on the characteristics of minced meat products. Food Science42(18): 28–36.
46.
MoghtadaeiMSoltanizadehNGoliSAH, et al. (2021). Physicochemical properties of beef burger after partial incorporation of ethylcellulose oleogel instead of animal fat. Journal of Food Science Technology58(12): 4775–4784.
47.
NacakBOzturk-KerimogluBYildizD, et al. (2021). Peanut and linseed oil emulsion gels as potential fat replacer in emulsified sausages. Meat Science176: 108464.
48.
NishadJDuttaASahaS, et al. (2021). Ultrasound-assisted development of stable grapefruit peel polyphenolic nano-emulsion: Optimization and application in improving oxidative stability of mustard oil. Food Chemistry334: 127561.
49.
Öztürk-KerimoğluBKaraAUrgu-ÖztürkM, et al. (2021). A new inverse olive oil emulsion plus carrot powder to replace animal fat in model meat batters. Lwt135: 110044.
50.
PandoDGutiérrezGCocaJ, et al. (2013). Preparation and characterization of niosomes containing resveratrol. Journal of Food Engineering117(2): 227–234.
51.
ParadisoVMGiarnettiMSummoC, et al. (2015). Production and characterization of emulsion filled gels based on inulin and extra virgin olive oil. Food Hydrocolloids45: 30–40.
52.
ParkSJAhmadFPhilpA, et al. (2012). Resveratrol ameliorates aging-related metabolic phenotypes by inhibiting cAMP phosphodiesterases. Cell148(3): 421–433.
53.
SalminenHHerrmannKWeissJ. (2013). Oil-in-water emulsions as a delivery system for n-3 fatty acids in meat products. Meat Science93(3): 659–667.
54.
ShaoPFengJSunP, et al. (2019). Improved emulsion stability and resveratrol encapsulation by whey protein/gum Arabic interaction at oil-water interface. International Journal of Biological Macromolecules133: 466–472.
55.
ShuliMChenLMengyaoY, et al. (2021). Treatment for liver cancer: From sorafenib to natural products. European Journal of Medicinal Chemistry224: 113690.
56.
SilvaFAPEstévezMFerreiraVCS, et al. (2018). Protein and lipid oxidations in jerky chicken and consequences on sensory quality. Lwt97: 341–348.
57.
SotoBLHankJADarjatmokoSR, et al. (2011). Anti-tumor and immunomodulatory activity of resveratrol in vitro and its potential for combining with cancer immunotherapy. International Immunopharmacology11(11): 1877–1886.
58.
StojanovićSSprinzHBredeOJAoB and Biophysics (2001). Efficiency and mechanism of the antioxidant action of trans-resveratrol and its analogues in the radical liposome oxidation. Archives of Biochemistry and Biophysics391(1): 79–89.
59.
SummerlinNSooEThakurS, et al. (2015). Resveratrol nanoformulations: Challenges and opportunities. International Journal of Pharmaceutics479(2): 282–290.
60.
TakatsukaMGotoSKobayashiK, et al. (2022). Evaluation of pure antioxidative capacity of antioxidants: ESR spectroscopy of stable radicals by DPPH and ABTS assays with singular value decomposition. Food Bioscience48: 101714.
61.
TangJZhouJZhouX, et al. (2022). Rearranged supramolecular structure of resistant starch with polymorphic microcrystals prepared in high-solid enzymatic system. Food Hydrocolloids124: 107215.
62.
TimmersSKoningsEBiletL, et al. (2011). Calorie restriction-like effects of 30 days of resveratrol supplementation on energy metabolism and metabolic profile in obese humans. Cell Metabolism14(5): 612–622.
63.
WanZLWangJMWangLY, et al. (2014). Complexation of resveratrol with soy protein and its improvement on oxidative stability of corn oil/water emulsions. Food Chemistry161: 324–331.
64.
WangYWangWJiaH, et al. (2018). Using cellulose nanofibers and its palm oil pickering emulsion as fat substitutes in emulsified sausage. Journal of Food Science83(6): 1740–1747.
65.
WeiZHuangQ. (2019). Developing organogel-based pickering emulsions with improved freeze-thaw stability and hesperidin bioaccessibility. Food Hydrocolloids93: 68–77.
66.
WoźniakMKowalskaMTavernierS, et al. (2020). Enzymatically modified fats applied in emulsions stabilized by polysaccharides. Biomolecules11(1): 49.
67.
WuBLiYLiY, et al. (2021). Pickering emulsions-chitosan hydrogel beads carrier system for loading of resveratrol: Formulation approach and characterization studies. Reactive and Functional Polymers169: 105074.
68.
WuWKongXZhangC, et al. (2020). Fabrication and characterization of resveratrol-loaded gliadin nanoparticles stabilized by gum Arabic and chitosan hydrochloride. Lwt129: 109532.
69.
XieYLeiYRongJ, et al. (2021). Physico-chemical properties of reduced-fat biscuits prepared using O/W cellulose-based pickering emulsion. Lwt148: 111745.
70.
XuemeiZQianNZhimeiZ, et al. (2021). Resveratrol affects the expression of uric acid transporter by improving inflammation. Molecular Medicine Reports24(2): 1–9.
71.
YinXDongHChengH, et al. (2022). Sodium caseinate particles with co-encapsulated resveratrol and epigallocatechin-3-gallate for inhibiting the oxidation of fish oil emulsions. Food Hydrocolloids124: 107308.
72.
YoussefMKBarbutS. (2011). Fat reduction in comminuted meat products-effects of beef fat, regular and pre-emulsified canola oil. Meat Science87(4): 356–360.
73.
ZhangLZhangZChenY, et al. (2021). Chitosan and procyanidin composite films with high antioxidant activity and pH responsivity for cheese packaging. Food Chemistry338: 128013.
74.
ZhuangXHanMBaiY, et al. (2018). Insight into the mechanism of myofibrillar protein gel improved by insoluble dietary fiber. Food Hydrocolloids74: 219–226.
75.
ZhuangXHanMKangZL, et al. (2016). Effects of the sugarcane dietary fiber and pre-emulsified sesame oil on low-fat meat batter physicochemical property, texture, and microstructure. Meat Science113: 107–115.
